Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A toy construction system comprising: a plurality of toy construction elements, each comprising one or more coupling members configured for detachably interconnecting the toy construction elements with each other so as to form a toy construction model; a scanning station comprising an object support for receiving a physical object, in particular a toy construction model constructed from one or more of said toy construction elements; a sensor device operable to capture radiation from a physical object when the physical object is placed on the object support; wherein the scanning station and/or the sensor device are configured to cause the sensor device to receive radiation at different viewpoints relative to the physical object; an interface configured to transmit a signal indicative of the captured radiation to a processor for processing the captured radiation and for creating a 3D digital representation of the physical object; wherein the object support comprises an object support base and a support element, the support element being detachably connectable to the object support base and comprising one or more coupling members configured for releasably connecting one or more toy construction elements of the toy construction model to the object support; wherein the support element comprises a base plate and wherein the object support base comprises a retaining member configured to engage and retain the base plate in attachment with the object support base; and wherein the object support base comprises a user-activatable release member configured to cause, when activated, the retaining member to disengage.
A toy construction system includes a set of interlocking toy construction elements designed to form various models. The system also features a scanning station for digitizing physical models built from these elements. The scanning station has an object support with a base and a detachable support element. The support element includes coupling members compatible with the toy construction elements, allowing models to be securely mounted for scanning. The object support base has a retaining mechanism to hold the support element in place and a user-activated release member to detach it. The scanning station includes a sensor device that captures radiation from multiple viewpoints to generate a 3D digital representation of the model. The captured data is transmitted to a processor for further processing. This system enables users to create physical toy constructions and convert them into digital 3D models for virtual manipulation or further use. The modular design of the object support allows for easy attachment and removal of models, enhancing usability. The scanning process involves capturing radiation from different angles to ensure accurate 3D reconstruction. The system integrates physical and digital play, bridging traditional toy construction with modern digital technologies.
2. A toy construction system according to claim 1 , wherein the support element comprises a pedestal wherein said one or more coupling members configured for releasably connecting one or more toy construction elements of the toy construction model to the object support are positioned at an uppermost end of the pedestal.
A toy construction system includes a support element designed to hold and position toy construction elements in a model. The support element features a pedestal with one or more coupling members at its uppermost end. These coupling members are configured to releasably connect one or more toy construction elements to the support, allowing for modular assembly and disassembly. The pedestal provides stability and elevation, ensuring the connected construction elements remain securely in place while being easily adjustable. This design enables users to build and modify toy models with precision, accommodating various configurations and structural arrangements. The coupling members may include clips, hooks, or other fastening mechanisms compatible with standard toy construction elements, ensuring versatility and ease of use. The system enhances playability by allowing dynamic adjustments to the model's structure without compromising stability. The pedestal's height and positioning of the coupling members optimize the connection points for optimal balance and functionality. This invention addresses the need for a stable yet flexible support system in toy construction, improving both the building process and the final model's durability.
3. A toy construction system according to claim 1 , wherein the object support base comprises a receptacle shaped and size to snugly receive the base plate.
A toy construction system includes interlocking components for building structures. The system addresses the challenge of creating stable, modular constructions by providing a base plate with a locking mechanism that securely connects to other components. The base plate has a flat surface with raised edges and a central locking feature, such as a peg or socket, that engages with corresponding features on other plates or connectors. The system also includes an object support base designed to hold the base plate in place. This support base has a receptacle specifically shaped and sized to snugly receive the base plate, ensuring a tight fit and preventing movement during play. The receptacle may have walls or a cavity that matches the dimensions of the base plate, allowing for a friction or interference fit. This design enhances stability and alignment, making it easier to build multi-level structures without components shifting or collapsing. The system may also include additional connectors, such as beams or panels, that attach to the base plate or support base to expand construction possibilities. The interlocking features ensure that all components remain securely connected, even under stress, while allowing for easy disassembly and reconfiguration.
4. A toy construction system according to claim 1 , wherein the retaining member comprises a movable locking member that is movable between an open position and a locking position.
A toy construction system includes interlocking building elements designed for easy assembly and disassembly. The system addresses the challenge of providing stable connections between construction elements while allowing for quick and tool-free adjustments. The building elements feature interlocking surfaces that engage with one another to form a secure connection. A retaining member is integrated into the elements to enhance the stability of the connection. This retaining member includes a movable locking member that can be shifted between an open position and a locking position. In the open position, the locking member allows the building elements to be easily separated or repositioned. In the locking position, the locking member secures the elements together, preventing unintended disassembly. The movable locking member may be actuated manually or through interaction with another element, ensuring a user-friendly experience. This design enables children to build complex structures with confidence, knowing their creations will remain intact during play. The system is particularly useful for educational toys, encouraging creativity and fine motor skill development while maintaining structural integrity.
5. A toy construction system according to claim 1 , wherein the sensor device comprises an image capture device operable to capture two or more images of the physical object when the physical object is placed on the object support, wherein the two or more images are taken from different viewpoints relative to the physical object.
A toy construction system includes a sensor device with an image capture device that captures multiple images of a physical object placed on an object support. The images are taken from different viewpoints relative to the object, allowing for a three-dimensional reconstruction or analysis of the object's shape, size, or features. The system may use these images to guide assembly, verify placement, or enable interactive digital modeling of the constructed object. The sensor device may be integrated into a base, a handheld scanner, or another component of the construction system. The captured images can be processed to extract geometric data, which may be used for alignment, error detection, or generating digital representations of the physical construction. The system may also include a display or feedback mechanism to assist users in assembling the object accurately. The multi-view imaging approach enhances precision and interactivity in toy construction, allowing for more complex and customizable builds.
6. A toy construction system according to claim 1 , wherein the object support comprises a turntable.
A toy construction system includes interlocking building elements that can be assembled to form structures. The system provides a modular framework for creating various designs, allowing users to connect and reconfigure components as desired. The building elements may include connectors, beams, panels, and other structural parts that can be joined together using mechanical fasteners or interlocking features. The system incorporates an object support designed to hold and position objects during construction. This support ensures stability and precision when assembling parts, particularly for larger or more complex structures. The object support can be adjusted or repositioned to accommodate different configurations and user preferences. In one configuration, the object support includes a turntable mechanism. The turntable allows the supported object to rotate freely or be positioned at specific angles, enhancing the versatility of the construction process. This feature is particularly useful for creating rotating elements, such as wheels, turrets, or other dynamic components, within the assembled structure. The turntable may be integrated into the base of the object support or attached as a modular component, depending on the design requirements. The system may also include additional features, such as locking mechanisms to secure the turntable in place when needed.
7. A toy construction system according to claim 1 , further comprising a drive mechanism for operating the object support and/or the sensor device so as to change the viewpoint of the sensor device relative to the physical object.
A toy construction system includes a base structure, an object support for holding a physical object, and a sensor device for capturing data about the physical object. The system allows users to build and modify structures while analyzing the physical object using the sensor device. The sensor device can be positioned at different locations relative to the object support to capture data from various angles. The system may include a drive mechanism that operates the object support and/or the sensor device to adjust the viewpoint of the sensor device relative to the physical object. This allows for dynamic scanning or imaging of the object from multiple perspectives. The drive mechanism may include motors, gears, or other actuators to move the sensor device or the object support in one or more directions, such as rotation, translation, or tilting. The system may also include a processing unit to analyze the captured data and provide feedback or instructions to the user. The construction system is designed for educational purposes, enabling users to explore spatial relationships, geometry, and sensor technology in a hands-on manner. The drive mechanism enhances the system's functionality by automating viewpoint adjustments, improving data capture efficiency, and expanding the range of possible configurations.
8. A toy construction system according to claim 7 , wherein the drive mechanism is at least partially constructible from said toy construction elements.
A toy construction system includes a drive mechanism that can be at least partially built using the same construction elements used to assemble the rest of the toy. The system allows users to create movable or interactive structures by combining standard building blocks with mechanical components. The drive mechanism may include gears, motors, or other motion-generating parts that can be integrated into constructions made from the system's modular elements. This design enables users to build functional models such as vehicles, robots, or other moving toys without needing separate, incompatible parts. The construction elements are designed to interlock or connect in multiple configurations, allowing flexibility in designing both the structure and the drive mechanism. The system may also include specialized elements like axles, connectors, or power sources that work seamlessly with the standard building blocks. By using the same elements for both structural and mechanical components, the system simplifies construction and encourages creativity in designing functional toys. The drive mechanism can be adjusted or modified by rearranging the construction elements, allowing for customizable movement and functionality in the finished toy.
9. A toy construction system according to claim 1 , wherein the scanning station comprises a base.
A toy construction system includes a scanning station for identifying and tracking construction elements used in building structures. The scanning station comprises a base that supports the scanning mechanism, which detects and records the type and position of construction elements as they are assembled. The system allows users to build physical structures while digitally tracking the assembly process, enabling features such as virtual modeling, error detection, and automated guidance. The base of the scanning station provides stability and alignment for accurate scanning, ensuring precise detection of construction elements. The system may also include a user interface for displaying assembly instructions, progress tracking, and interactive feedback. The scanning station may further incorporate sensors or cameras to capture detailed information about the construction elements, such as their orientation and connectivity. The system is designed to enhance the building experience by combining physical play with digital tracking and feedback, making it suitable for educational and recreational purposes. The base of the scanning station ensures reliable operation by maintaining proper positioning of the scanning components relative to the construction elements.
10. A toy construction system according to claim 9 , wherein the base comprises an object support coupling member to which the object support can be detachably connected.
A toy construction system includes interlocking base elements that form a stable foundation for building structures. The base elements have interlocking features that allow them to be connected in various configurations, such as side-by-side or end-to-end, to create a larger base surface. The base elements may also include alignment features to ensure proper positioning during assembly. The system further includes an object support that can be attached to the base, providing a stable platform for placing or securing additional construction elements, such as toy figures, accessories, or other structural components. The object support is designed to be detachable, allowing it to be repositioned or removed as needed. The base also includes a coupling member specifically designed to connect with the object support, ensuring a secure and stable attachment. This coupling mechanism may involve snap-fit connections, friction-based locking, or other reversible fastening methods. The system allows for modular assembly, enabling users to customize the base structure and object support placement according to their desired construction design. The interlocking base elements and detachable object support enhance versatility and playability, making it easier to create and modify structures in a toy construction environment.
11. A toy construction system according to claim 10 , wherein the object support comprises a turntable and wherein the object support coupling member is configured to receive the turntable such that the turntable is rotatable about an axis of rotation.
A toy construction system includes a base structure and an object support that is detachably coupled to the base structure via a coupling member. The object support comprises a turntable, and the coupling member is designed to receive the turntable in a way that allows the turntable to rotate about an axis of rotation. This enables the object support to rotate independently of the base structure, providing dynamic movement for constructed models. The system may include additional features such as adjustable positioning mechanisms, locking elements to secure the turntable in place, or modular components that can be attached to the turntable for enhanced functionality. The turntable design allows for 360-degree rotation, making it suitable for interactive play, educational demonstrations, or animated displays. The coupling member ensures stable attachment while allowing free rotation, and the system may incorporate gears, motors, or manual rotation mechanisms to control the turntable's movement. This configuration enhances the versatility of the construction system, enabling users to create models with rotating elements for various applications.
12. A toy construction system according to claim 11 , wherein the base comprises one or more coupling members for attaching one or more components of a drive mechanism for driving the turntable.
A toy construction system includes interlocking building elements that can be assembled to form a turntable structure. The turntable is designed to rotate, allowing for dynamic movement in constructed models. The system addresses the need for modular, customizable toy construction sets that enable users to build functional mechanical components without requiring specialized tools or parts. The base of the turntable includes one or more coupling members that facilitate the attachment of additional components, such as gears, motors, or other drive mechanism parts, to control the turntable's rotation. These coupling members ensure compatibility with various drive mechanisms, allowing users to integrate different power sources or motion systems into their designs. The modular nature of the system enables easy assembly, disassembly, and reconfiguration, enhancing creativity and adaptability in toy construction. The turntable can be used in various applications, such as rotating platforms, merry-go-rounds, or other rotating structures, providing both educational and entertainment value. The system simplifies the process of incorporating mechanical functionality into toy models while maintaining ease of use and customization.
13. A toy construction system according to claim 10 , comprising two or more object supports selectively and detachably connectable to the object support coupling member; and wherein the two or more object supports comprise respective configurations of coupling members.
A toy construction system is designed to allow users to build and modify structures by connecting various components. The system includes an object support coupling member that serves as a central connection point for attaching different object supports. These object supports can be selectively and detachably connected to the coupling member, enabling flexible assembly and disassembly of the construction system. The object supports themselves feature different configurations of coupling members, allowing for varied attachment points and structural arrangements. This modular design enhances creativity and adaptability, as users can combine multiple object supports in different configurations to create diverse structures. The system addresses the need for a versatile and customizable construction toy that supports imaginative play and engineering exploration. The detachable connections ensure easy reconfiguration, while the varied coupling member designs provide stability and compatibility across different components. This approach improves upon traditional construction toys by offering greater flexibility and structural versatility.
14. A toy construction system according to claim 9 , wherein the base comprises a sensor coupling member for receiving the sensor device in a predetermined position and orientation relative to the turntable; and wherein the sensor device comprises one or more coupling members for detachably connecting the sensor device to the base in a predetermined spatial relation to the object support and with the object support being in a field of view of the sensor device.
A toy construction system includes a base with a turntable for rotating an object support, allowing objects to be positioned and manipulated in various orientations. The system addresses the challenge of precisely tracking or interacting with objects during rotation by incorporating a sensor device that can be securely attached to the base. The base features a sensor coupling member that positions the sensor device in a fixed spatial relationship to the turntable, ensuring consistent alignment. The sensor device includes one or more coupling members that detachably connect it to the base, maintaining a predetermined position where the object support remains within the sensor's field of view. This setup enables accurate sensing, monitoring, or interaction with objects as they rotate, supporting applications like automated tracking, feedback systems, or interactive play. The modular design allows the sensor device to be easily attached or removed, adapting the system for different functionalities. The system enhances precision and usability in toy construction by integrating sensor-based feedback with mechanical rotation.
15. A toy construction system according claim 9 , wherein the base comprises one or more coupling members for detachably attaching one or more background construction elements configured to form a background portion when observed by the sensor device.
A toy construction system includes a base with one or more coupling members for detachably attaching background construction elements. These elements form a background portion that is detectable by a sensor device. The system allows users to build and modify structures, including background elements, to create interactive scenes. The background elements can be rearranged or replaced to change the visual context for the sensor device, enabling dynamic play scenarios. The coupling members ensure secure yet detachable connections, allowing easy customization of the background. The sensor device detects the background portion to enable interactions, such as triggering events or recognizing different configurations. This system enhances play by providing a modular and adaptable environment where users can design and modify both foreground and background elements. The detachable nature of the background elements allows for quick reconfiguration, supporting creative and educational play. The system is particularly useful in interactive toys where the background context influences gameplay or learning outcomes.
16. A toy construction system according to claim 9 , wherein the base is configured to detachably receive different object supports and/or different sensor devices.
A toy construction system is designed to provide a modular and interactive building experience for users. The system includes a base component that serves as a foundation for constructing various structures. The base is specifically configured to detachably receive different object supports, allowing users to attach and interchange various structural elements to build different configurations. Additionally, the base can also detachably receive different sensor devices, enabling the integration of interactive features such as motion detection, sound recognition, or other sensory inputs. This modularity allows users to customize their constructions with different supports and sensors, enhancing the versatility and functionality of the toy system. The detachable nature of the components ensures easy assembly and disassembly, promoting creativity and adaptability in play. The system is particularly useful for educational purposes, as it encourages problem-solving and hands-on learning through interactive building activities.
17. A toy construction system according to claim 9 , wherein the base is configured to provide power to one or more components detachably connected to the base.
A toy construction system includes a base and modular components that can be detachably connected to the base. The base is designed to supply electrical power to the connected components, enabling functionality such as lighting, sound, or motorized movement. The system allows users to assemble and reconfigure the components in various arrangements, with the base serving as a central power hub. The components may include structural elements, interactive features, or decorative pieces, all of which can be powered by the base when attached. This design facilitates easy assembly, disassembly, and customization of the toy system, enhancing playability and creativity. The base may incorporate power distribution mechanisms such as electrical contacts, wireless charging, or magnetic connections to ensure reliable power transfer to the attached components. The system is particularly useful for educational toys, interactive play sets, or modular construction kits where power is required for functional elements.
18. A toy construction system according to claim 1 , wherein the scanning station comprises a background portion configured to form a background when observed by the sensor device and shaped and sized so as to define a maximum model volume small enough to be completely captured by the sensor device.
A toy construction system includes a scanning station designed to capture digital images of physical models built by users. The system addresses the challenge of accurately digitizing small-scale models by providing a controlled scanning environment. The scanning station features a background portion that serves as a backdrop when viewed by a sensor device, ensuring consistent imaging conditions. This background portion is specifically shaped and sized to define a maximum model volume that is small enough to be entirely captured by the sensor device in a single scan. This ensures that the entire model is visible and properly digitized without partial or incomplete captures. The system may also include modular building elements that users can assemble into various configurations, which are then scanned to create digital representations. The scanning station's design optimizes the digitization process by minimizing the risk of partial scans and improving the accuracy of the captured model data. This allows users to easily transition between physical and digital representations of their creations.
19. A toy construction system according to claim 1 , wherein the sensor device comprises at least a lower and an upper imaging device; the lower imaging being configured to capture one or more images from a viewpoint no higher than a top surface of the object support; and wherein the upper imaging device is configured to capture one or more images from a viewpoint higher than the top surface of the object support and higher than the viewpoint of the lower imaging device.
A toy construction system includes a sensor device with at least two imaging devices positioned at different heights relative to an object support. The lower imaging device captures images from a viewpoint no higher than the top surface of the object support, providing a close-up or ground-level perspective of objects placed on the support. The upper imaging device captures images from a viewpoint higher than the top surface and the lower imaging device, offering an elevated or overhead view. This dual-imaging setup allows for comprehensive visual data collection from multiple angles, enhancing the system's ability to analyze and interact with constructed objects. The system may include modular components that can be assembled to form structures, with the sensor device providing feedback or guidance during construction. The imaging devices may be used for tracking object placement, detecting structural stability, or enabling interactive features such as augmented reality overlays. The system is designed to improve the play experience by providing dynamic visual feedback and facilitating creative construction activities.
20. A toy construction system according to claim 19 , wherein the sensor device comprises said interface.
A toy construction system includes modular building elements that can be physically connected to form structures. The system incorporates sensor devices that detect physical interactions, such as connections or disconnections, between the building elements. These sensor devices generate signals based on the detected interactions, which can be processed to trigger actions like sound, light, or movement in the toy system. The sensor device includes an interface that allows it to communicate with other components, such as a central controller or external devices, to facilitate these actions. The interface may support wired or wireless communication protocols, enabling data exchange and coordination between multiple sensor devices and other system elements. This system enhances interactive play by enabling dynamic responses to user actions, such as building or modifying structures, making the toy more engaging and responsive. The sensor device's interface ensures seamless integration with other system components, allowing for complex and customizable play experiences.
21. A toy construction system according to claim 20 , wherein the scanning station comprises a rotatable member comprising a circumferential wall defining a void for receiving the physical object and configured to rotate around an axis of rotation projecting through said void; and wherein the object support at least partially extends into the void; and wherein the sensor device is connected to the circumferential wall.
A toy construction system includes a scanning station for digitizing physical objects, such as toy models, into digital representations. The system addresses the challenge of accurately capturing the shape and dimensions of physical objects to enable digital manipulation, sharing, or 3D printing. The scanning station features a rotatable member with a circumferential wall that defines an internal void for receiving the physical object. The rotatable member rotates around an axis that passes through this void, allowing the object to be scanned from multiple angles. An object support extends at least partially into the void to hold the object in place during rotation. A sensor device, such as a camera or depth sensor, is mounted on the circumferential wall to capture data as the object rotates. This configuration ensures comprehensive scanning coverage by moving the sensor around the object rather than rotating the object itself, improving accuracy and ease of use. The system may also include additional components, such as a base structure supporting the rotatable member and the object support, as well as processing units to generate digital models from the captured data. The design simplifies the scanning process, making it accessible for users of all ages.
22. A toy construction system according to claim 19 , wherein the sensor device comprises one or more light sources configured to illuminate an object positioned on the turntable.
A toy construction system includes a turntable for holding and rotating objects, such as toy models, and a sensor device for detecting and analyzing the objects. The sensor device includes one or more light sources that illuminate the object positioned on the turntable. The system may also include a camera or imaging device to capture images or video of the illuminated object, allowing for analysis of the object's shape, color, or other features. The turntable can rotate the object to different positions, enabling the sensor device to scan the object from multiple angles. The system may further include a controller or processing unit that processes the captured data to identify the object, determine its orientation, or assess its structural integrity. The light sources can be configured to provide uniform illumination or specific lighting patterns to enhance detection accuracy. The system may also include additional components, such as a base structure, mechanical connectors, or user interfaces, to support the turntable and sensor device. The overall system is designed to facilitate interactive play, educational activities, or automated assembly processes for toy construction.
23. A toy construction system according claim 1 , wherein the plurality of toy construction elements comprises one or more marker construction elements attachable to the scanning station and/or to the toy construction model within the field of view of sensor device.
A toy construction system includes a scanning station with a sensor device and a plurality of toy construction elements that can be assembled into a toy construction model. The system allows users to scan the model to identify and track the construction elements used. The scanning station includes a sensor device that captures images or data of the model within its field of view. The toy construction elements are designed to be compatible with the scanning station, allowing the system to recognize and catalog the elements as they are assembled. The system may also include a display or interface to provide feedback, such as assembly instructions or progress tracking. The construction elements can be attached to the scanning station or the model itself, ensuring they remain within the sensor's field of view during scanning. This system enhances the interactive and educational aspects of toy construction by enabling automated recognition and feedback on the assembled model. The marker construction elements may include visual or electronic markers to improve detection accuracy. The system can be used for educational purposes, allowing users to follow guided assembly steps or receive feedback on their construction progress. The scanning station may also include processing capabilities to analyze the scanned data and provide real-time guidance or validation of the assembled model.
24. A toy construction system according to claim 23 , wherein the processor is configured, based on said signal indicative of the captured radiation, to the recognize said one or more marker construction elements, when said one or more marker construction elements are connected to the scanning station or the toy construction model within the field of view of the sensor device; and to assign one or more attributes to the created 3D digital representation.
A toy construction system includes a scanning station with a sensor device that captures radiation from a toy construction model or marker construction elements. The system recognizes these elements when they are connected to the scanning station or within the sensor's field of view. A processor generates a 3D digital representation of the model and assigns attributes to this representation based on the recognized elements. The attributes may include properties such as color, shape, or functional characteristics of the construction elements. The system allows users to digitally track and modify their physical toy constructions, enhancing play and design capabilities. The scanning station may include a base and a support structure to position the sensor device, ensuring accurate detection of the elements. The marker construction elements may have unique identifiers or patterns that the sensor detects to facilitate recognition. The system may also include a user interface for interacting with the digital representation, allowing users to visualize, edit, or share their creations. This technology enables seamless integration between physical and digital play experiences, improving user engagement and creativity.
25. A toy construction system comprising: a plurality of toy construction elements, each comprising one or more coupling members configured for detachably interconnecting the toy construction elements with each other so as to form a toy construction model; a scanning station comprising an object support for receiving a physical object, in particular a toy construction model constructed from one or more of said toy construction elements; a sensor device operable to capture radiation from a physical object when the physical object is placed on the object support; wherein the scanning station and/or the sensor device are configured to cause the sensor device to receive radiation at different viewpoints relative to the physical object; an interface configured to transmit a signal indicative of the captured radiation to a processor for processing the captured radiation and for creating a 3D digital representation of the physical object; wherein the plurality of toy construction elements comprises one or more marker construction elements attachable to the scanning station within the field of view of sensor device; and wherein the processor is configured, based on said signal indicative of the captured radiation, to recognize said one or more marker construction elements, when said one or more marker construction elements are connected to the scanning station within the field of view of the sensor device; and to assign corresponding one or more attributes to the created 3D digital representation.
A toy construction system includes a set of toy construction elements with coupling members for assembling a physical toy model. The system also features a scanning station with an object support for placing the constructed toy model. A sensor device captures radiation from the model at multiple viewpoints to generate a 3D digital representation. The scanning station or sensor device adjusts to ensure radiation is captured from different angles. The system transmits the captured data to a processor, which processes the information to create the 3D model. The construction elements include marker elements that can be attached to the scanning station within the sensor's field of view. The processor identifies these marker elements in the captured data and assigns specific attributes to the 3D model based on their presence. This allows for enhanced digital representation and interaction with the physical toy model. The system enables users to scan and digitize their constructions while incorporating identifiable markers to add functionality or metadata to the digital output.
26. A toy construction system according to claim 25 , wherein at least a part of the object support is constructible from said toy construction elements including said marker construction elements.
A toy construction system provides a modular framework for building and customizing interactive play environments. The system includes a base structure with an object support that holds and positions toy construction elements, such as blocks or figures, in a play area. The object support is designed to be adjustable or movable, allowing users to reconfigure the play setup dynamically. A key feature is the integration of marker construction elements, which can be attached to the object support or other parts of the system to define boundaries, paths, or interactive zones. These markers may include sensors or indicators to enhance gameplay, such as triggering actions when a toy element interacts with them. The system enables users to construct and modify the object support itself using the same toy construction elements, allowing for customization of the support's shape, size, or functionality. This modularity ensures adaptability for different play scenarios, from simple setups to complex interactive environments. The invention addresses the need for flexible, customizable play systems that grow with a child's creativity and evolving play preferences.
27. A toy construction system according to claim 25 , wherein the object support is configured such that a model is attachable in different orientations relative to the object support and/or at different positions on the object support.
A toy construction system includes a base structure and an object support that allows models to be attached in various orientations and positions. The system enables users to build and display models in different configurations, enhancing creativity and versatility. The object support is designed to accommodate multiple attachment points and angles, allowing models to be positioned horizontally, vertically, or at intermediate angles. This flexibility ensures that models can be displayed in a way that highlights their design and functionality. The system may also include modular components that can be interchanged or rearranged to support different model configurations. The object support may feature adjustable or rotatable joints, slots, or connectors to facilitate precise positioning. The system is particularly useful for educational and recreational purposes, allowing users to experiment with different model placements and orientations. The ability to attach models in various ways encourages problem-solving and spatial reasoning skills. The system may also include locking mechanisms to secure models in place, ensuring stability during play or display. The overall design promotes interactive learning and creative expression by providing a versatile platform for constructing and showcasing models.
28. A toy construction system according to claim 25 , wherein the plurality of toy construction elements comprises one or more electronic toy construction elements, each comprising a communications interface for communicating information related to the toy construction element; and wherein the scanning station comprises a communication interface configured to receive the communicated information from the electronic toy construction element when the electronic toy construction element is positioned on the object support.
A toy construction system includes a scanning station with an object support for holding toy construction elements. The system scans and identifies the elements to determine their properties, such as shape, size, or type, and may generate a digital representation of a constructed model. The system may also include a display for visualizing the model and a user interface for interacting with it. The scanning station may use optical, electromagnetic, or other sensing methods to detect and analyze the elements. The toy construction system includes electronic toy construction elements, each equipped with a communications interface to transmit information about the element, such as its identity, functional capabilities, or status. The scanning station has a corresponding communication interface to receive this information when the electronic element is placed on the object support. This allows the system to gather additional data beyond physical characteristics, such as electronic functionality or interactive features. The system may use this information to enhance model building, automation, or interactive play experiences. The communication between the elements and the scanning station may occur wirelessly or through direct contact.
29. A toy construction system according to claim 25 , wherein the scanning station and/or the sensor device comprises an output device operable to provide feedback related to a scanning process.
A toy construction system includes a scanning station and a sensor device for digitizing physical toy elements into a virtual environment. The system allows users to build physical structures with toy elements, scan them using the scanning station or sensor device, and then interact with a digital representation of the structure in a virtual environment. The scanning station and/or sensor device includes an output device that provides feedback during the scanning process. This feedback may include visual, auditory, or haptic signals to indicate the status of the scan, such as whether the scan is complete, if adjustments are needed, or if the scan was successful. The output device ensures users receive real-time information to improve the accuracy and efficiency of the scanning process. The system may also include features for tracking the position and orientation of toy elements, enabling precise digital reconstruction. The feedback mechanism enhances user experience by guiding them through the scanning process, reducing errors, and confirming successful digitization of the physical toy structure.
30. A toy construction system according to claim 25 , wherein the scanning station and/or the sensor device comprises an accelerometer operable to detect vibrations of the scanning station during a scanning process.
A toy construction system includes a scanning station and a sensor device for capturing data from physical toy elements to create digital representations. The system allows users to build physical structures with toy elements and scan them into a digital environment, enabling virtual manipulation, simulation, or integration with digital platforms. The scanning station and sensor device may include an accelerometer to detect vibrations during the scanning process. The accelerometer helps identify and compensate for movement or instability, ensuring accurate data capture. This feature improves the reliability of the scanning process by accounting for environmental factors or user-induced vibrations that could otherwise distort the captured data. The system may also include additional sensors, such as cameras or depth sensors, to enhance the scanning accuracy and detail of the digital representations. The accelerometer data can be used to adjust scanning parameters in real-time, ensuring consistent and high-quality digital reconstructions of the physical toy structures. This technology addresses the challenge of maintaining precision in scanning systems when subjected to external vibrations, improving the overall user experience in interactive toy construction and digital integration.
31. A toy construction system according to claim 25 , wherein the sensor device is arranged movable relative to the object support.
A toy construction system includes modular components that can be assembled to create interactive structures. The system addresses the need for enhanced play experiences by integrating sensor devices that detect and respond to user interactions. These sensors enable features such as motion detection, touch sensitivity, or environmental sensing, allowing the constructed objects to react dynamically. The system also includes an object support, which serves as a base or framework for assembling the modular components. In this particular configuration, the sensor device is designed to be movable relative to the object support. This mobility allows the sensor to be repositioned or adjusted during play, enhancing versatility and adaptability. The sensor may be mounted on a movable arm, track, or other mechanism, enabling precise positioning to optimize interaction with the user or other elements of the construction. The system may also include processing units, power sources, and communication interfaces to support the sensor's functionality. The modular design ensures compatibility with various components, allowing users to customize their constructions while maintaining sensor integration. This configuration improves interactivity and educational value, making the toy construction system more engaging and responsive to user input.
Unknown
March 24, 2020
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